This paper contributes to the existing literature on the Schaefer Production Model by applying a relatively new method for reducing the bias induced by measurement error, known as Simulation Extrapolation (SIMEX). We test this new method on logbook data from the Mid-Atlantic surfclam fishery from 2001-2009. We show that the SIMEX estimator reduces bias in the parameter estimates for the biological parameters and biomass estimates. This contribution is important because fishery managers may only have logbook catch and effort data on a few time periods, which could lead to poor biomass estimates, and potentially leading to a state of overfishing
Most stock assessment models assume that the probability of capture for all individuals of the same ...
This study presents a Monte Carlo method (CMSY) for estimating fisheries reference points from catch...
To reduce the risk of overexploitation and the ensuing conservation and socio-economic consequences,...
This paper contributes to the existing literature on the Schaefer Production Model by applying a rel...
Using data from the Mid-Atlantic surfclam fishery, this study examines the effect of measurement err...
Schaefer's production model is one of the most widely used surplus production models employed in fi...
Errors in modeling fishery population dynamics often come in two forms, random and structured. Rando...
ICES stock assessments of North Sea plaice are routinely carried out with eXtended Survivors Analysi...
Methodology to analyze the propagation of errors in fishery model parameters is described and demons...
In hydrometeorological and environmental studies, it is common to seek relations between two variabl...
The World Conference on Stock Assessment Methods (July 2013) included a workshop on testing assessme...
Catch-rate data are traditionally used to index abundance in fishery science. An objective of this r...
1. Measurement error and other forms of uncertainty are commonplace in ecology and evolution, and ma...
Assessments of sailfish and marlins usually rely on application of surplus–production models, becaus...
In fisheries, advice for the management of fish populations is based upon management quantities that...
Most stock assessment models assume that the probability of capture for all individuals of the same ...
This study presents a Monte Carlo method (CMSY) for estimating fisheries reference points from catch...
To reduce the risk of overexploitation and the ensuing conservation and socio-economic consequences,...
This paper contributes to the existing literature on the Schaefer Production Model by applying a rel...
Using data from the Mid-Atlantic surfclam fishery, this study examines the effect of measurement err...
Schaefer's production model is one of the most widely used surplus production models employed in fi...
Errors in modeling fishery population dynamics often come in two forms, random and structured. Rando...
ICES stock assessments of North Sea plaice are routinely carried out with eXtended Survivors Analysi...
Methodology to analyze the propagation of errors in fishery model parameters is described and demons...
In hydrometeorological and environmental studies, it is common to seek relations between two variabl...
The World Conference on Stock Assessment Methods (July 2013) included a workshop on testing assessme...
Catch-rate data are traditionally used to index abundance in fishery science. An objective of this r...
1. Measurement error and other forms of uncertainty are commonplace in ecology and evolution, and ma...
Assessments of sailfish and marlins usually rely on application of surplus–production models, becaus...
In fisheries, advice for the management of fish populations is based upon management quantities that...
Most stock assessment models assume that the probability of capture for all individuals of the same ...
This study presents a Monte Carlo method (CMSY) for estimating fisheries reference points from catch...
To reduce the risk of overexploitation and the ensuing conservation and socio-economic consequences,...